An electronic device according to various embodiments comprises a display, a camera module, and a processor, wherein the processor can be configured to: acquire a first image including a specific region through the camera module; store, on the basis of the first image, information related to at least one object included in the first image; acquire, on the basis of the second image, information related to at least one object included in a second image when the camera module acquires the second image including at least a partial region of the specific region; display, through the display, together with the second image, information that matches information corresponding to the at least one object included in the second image from among the pieces of information related to the at least one object included in the first image; and store, in correspondence to the at least partial region of the specific region, information which does not match the information corresponding to the at least one object included in the second image from among the pieces of information related to the at least one object included in the first image. Other additional embodiments are possible.

An image pickup apparatus capable of constantly providing a photographer with an appropriate display image even when a posture of the image pickup apparatus is changed is provided. An image pickup device and a main body including a display are connected by a hinge member rotatably about at least one axis. A first detector detects a rotation phase of the image pickup device about the one axis with respect to the main body. A second detector detects a posture of the image pickup device. A display controller performs a vertical inversion of a display of an image picked up by the image pickup device on the display in accordance with a detection result of the first detector and the second detector.

One particular implementation may take the form of a method and system for decoding 3-D multimedia content. In one example, the present invention may take the form of a method of decoding 3-D multimedia content encoded with at least content frames and null frames. The method may operate to receive the 3-D multimedia content, extract at least one content frame, at least one null frame, and display information. The method may further operate to reconstruct the content and null frames in a display-sequential manner using the display information to indicate the display order of the at least one content frame. In some examples, the method and system for encoding and decoding multimedia content may encode the multimedia content such that the at least one null frame may not be displayed by a display device.

A playback device reads out and plays contents from a recording medium. The playback device includes a first decoder that decodes a base video stream and an enhanced video stream, a second decoder that decodes encoded graphics data, and a first superimposer that superimposes the enhanced video information and stores enhanced high-luminance video information in a first video plain. The playback device also includes a first processor that converts color of a number of levels into a converted number of levels, a second superimposer that superimposes the decoded graphic data on the enhanced high-luminance video information, a second video plain storing the video information, and a second processor that converts color of a number of levels into a converted number of levels. The playback device further includes a third superimposer that superimposes the decoded graphic data on the high-luminance video information, and an outputter that outputs the superimposed result.

A system for combining data includes one or more processors that are, individually or collectively, configured to receive video data recorded by at least one sensor and operation data of a movable object that carries the at least one sensor, associate the operation data with the video data, and store the associated operation data and the video data in a video file. The operation data indicates one or more operation states of the movable object during a time period when the video data is recorded.

Systems and methods provide for editing of spherical video data. In one example, a computing device can receive a spherical video (or a video associated with an angular field of view greater than an angular field of view associated with a display screen of the computing device), such as by a built-in spherical video capturing system or acquiring the video data from another device. The computing device can display the spherical video data. While the spherical video data is displayed, the computing device can track the movement of an object (e.g., the computing device, a user, a real or virtual object represented in the spherical video data, etc.) to change the position of the viewport into the spherical video. The computing device can generate a new video from the new positions of the viewport.

In order to address problems such as an increase in costs incurred when obtaining a slow motion and a time limit for video recording, an image processing apparatus is provided, the image processing apparatus comprising: an image sensor for obtaining a plurality of frames of an image which is to be recorded; an image signal processing unit for receiving the obtained plurality of frames from the image sensor and post-processing the received plurality of frames; an encoder for receiving, from the image signal processor, and encoding a first group of frames which are a part of the post-processed plurality of frames; and a buffer storage unit for receiving, from the image signal processor, and storing a second group of frames which are another part of the post-processed plurality of frames, wherein the encoder receives the second group of frames from the buffer storage unit and performs encoding so as to generate an image including the first group of frames and the second group of frames.

In order to address problems such as an increase in costs incurred when obtaining a slow motion and a time limit for video recording, an image processing apparatus is provided, the image processing apparatus comprising: an image sensor for obtaining a plurality of frames of an image which is to be recorded; an image signal processing unit for receiving the obtained plurality of frames from the image sensor and post-processing the received plurality of frames; an encoder for receiving, from the image signal processor, and encoding a first group of frames which are a part of the post-processed plurality of frames; and a buffer storage unit for receiving, from the image signal processor, and storing a second group of frames which are another part of the post-processed plurality of frames, wherein the encoder receives the second group of frames from the buffer storage unit and performs encoding so as to generate an image including the first group of frames and the second group of frames.

A monitoring information recording apparatus according to one aspect, includes a recording processing unit configured to record, in a case that monitoring information including-at least one of a captured image of a monitoring target and a measurement value calculated based on the captured image meets a predetermined criterion, the monitoring information in a first mode. The recording processing unit, records, in a case that the monitoring information has not been recorded in the first mode for a predetermined period of time or longer, the monitoring information in the first mode regardless of whether the above criterion is met or not.

An information processing apparatus that displays video content on a first display region in a display section as a first video, displays the above-mentioned video content on a second display region in the above-mentioned display section as a second video delayed from the above-mentioned first video by a predetermined time, and sets a first tag inputted by a user into the above-mentioned first video and a second tag inputted by the above-mentioned user into the above-mentioned second video as tags for the above-mentioned video content.